Take Health Back Podcast

Real health. Real families. Strong minds. Healthy guts. Strong bodies.

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Take Health Back is a family wellness podcast for parents who are ready to stop chasing symptoms and start building real health at home. Each episode gives you practical brain-body strategies for stronger minds, healthier guts, stronger bodies, and more resilient families. elitefamilychiropractic.substack.com

Jun 24

Your Gut Is Talking to Your Brain — Are You Listening?

Your Gut Is Talking to Your Brain — Are You Listening? In this episode, we explore one of the most important health conversations of our time: the gut-brain axis. This is the communication network between the digestive system, brain, immune system, microbiome, vagus nerve, and autonomic nervous system. The gut-brain axis is not a one-way street; it includes neural signaling through the vagus nerve, immune signaling through cytokines, endocrine signaling through stress hormones, microbial metabolites such as short-chain fatty acids, and the enteric nervous system, often called the “second brain.” The big idea of this episode is simple: many symptoms that look like brain problems may be connected to whole-body stress, gut inflammation, immune activation, microbial imbalance, or nervous system dysregulation. This does not mean every case is caused by the gut, and it does not mean one supplement or one diet fixes everything. It means the body is an interconnected network, and symptoms often make more sense when we look at the whole system. 1. Why the Gut-Brain Axis Matters The gut and brain are in constant communication. The brain influences digestion through the autonomic nervous system and stress pathways, while the gut sends information back to the brain through the vagus nerve, immune signaling, microbial metabolites, hormones, and inflammatory messengers. Modern gut-brain axis research describes this as a bidirectional network involving the central nervous system, enteric nervous system, autonomic nervous system, HPA axis, immune system, and gut microbiota. This helps explain why digestive issues can be associated with mood, focus, fatigue, sleep, inflammation, pain sensitivity, and stress tolerance. It also helps explain why stress, anxiety, poor sleep, and sympathetic nervous system dominance can worsen gut motility, reflux, constipation, diarrhea, nausea, bloating, and food reactivity. Key takeaway: The gut is not just a digestive organ. It is a sensory, immune, neurological, microbial, and metabolic interface between the outside world and the brain. 2. Microglia: The Brain’s Defense System Microglia are the immune cells of the brain. Their job is to monitor the brain environment, respond to injury or infection, clear debris, support repair, and help protect the nervous system. When inflammation is short-term and controlled, this defense system is helpful. But when inflammatory signaling becomes chronic, microglia may become more reactive, shifting the brain toward a protective or defensive state. This matters because gut inflammation and systemic immune activation can influence the brain through cytokines, inflammatory mediators, and effects on barrier systems. The gut microbiota and inflammatory signaling are active areas of research in neuroinflammation, blood-brain barrier integrity, mood disorders, neurodevelopmental conditions, and neurodegenerative disorders. In kids, this may show up as emotional outbursts, poor focus, sensory overwhelm, anxiety, sleep disruption, hyperactivity, or regression. In adults, it may show up as brain fog, fatigue, anxiety, depression, headaches, low motivation, or burnout. Key takeaway: A defensive brain is not the same as a calm, focused, learning brain. When the body is inflamed, the brain can receive danger signals. 3. Why Are So Many Kids and Adults Struggling? The slide deck highlights a pattern many families are seeing: more anxiety, chronic fatigue, sensory overload, emotional dysregulation, ADHD symptoms, gut issues, autoimmune conditions, chronic inflammation, and brain fog. These are often treated as separate categories, but they may share common biological themes: chronic stress, inflammatory load, disrupted sleep, altered microbiome, poor vagal regulation, blood sugar instability, environmental exposures, and immune activation. Research on the microbiome-gut-brain axis recognizes that microbial, immune, neural, endocrine, and metabolic pathways do not operate independently; they interact as a network. Key takeaway: When symptoms appear across digestion, mood, focus, energy, immunity, sleep, and stress tolerance, the nervous system and gut-brain axis should be part of the conversation. 4. The Explosion of Chronic Conditions The episode discusses the rising burden of chronic conditions such as anxiety, mood disorders, ADHD, autism, IBS, autoimmune conditions, sleep disruption, dysautonomia, chronic fatigue, and inflammatory disorders. The point is not that all of these conditions have one cause. The point is that the modern body is being asked to adapt to a very different environment: processed food, reduced microbial diversity, chronic stress, poor sleep, chemical exposure, low movement, high screen stimulation, repeated antibiotics, inflammatory diets, and disrupted circadian rhythms. Modern gut-brain research is still developing, and researchers caution that causality is often difficult to prove. Many microbiome-brain studies are preclinical, small, or correlational, and the field requires careful study design to separate cause, consequence, and feedback loops. Key takeaway: Chronic symptoms should not only be viewed through diagnosis labels. We also need to examine the internal terrain: inflammation, microbiome balance, nervous system regulation, barrier integrity, and stress physiology. 5. Beyond the “Pill-for-an-Ill” Model The episode challenges the fragmented view of health. The stomach doctor handles the stomach.The brain doctor handles the brain.The mental health provider handles mood.The immune specialist handles immunity. Specialists are important, but the body does not operate in isolated boxes. The gut-brain axis model shows that digestion, stress hormones, immune activity, microbial metabolites, vagal signaling, and brain function all influence one another. This is why a purely symptom-suppression model may miss the deeper pattern. The better question is not only, “What symptom do we need to silence?” but also, “Why is the body producing this signal?” Key takeaway: Symptoms are clues. The goal is to understand the system that is producing them. 6. Your “Second Brain”: The Enteric Nervous System The gut contains its own nervous system called the enteric nervous system. It is sometimes called the “second brain” because it contains a large network of neurons that helps regulate motility, secretion, blood flow, digestive enzyme activity, and local reflexes. The enteric nervous system can operate with significant independence while still communicating with the central nervous system through sympathetic and parasympathetic pathways, including the vagus nerve. The enteric nervous system senses chemical and mechanical information inside the gut. It helps determine whether food moves forward, whether digestion slows down, whether secretions increase, and whether the immune system needs to pay attention. Key takeaway: Your gut is not a passive tube. It is a sensory and neurological organ that constantly reports information back to the brain. 7. Meet the Vagus Nerve The vagus nerve is one of the primary communication highways between the gut and the brain. It begins in the brainstem and travels through the neck, chest, and abdomen, communicating with the heart, lungs, stomach, intestines, liver, pancreas, and immune system. The vagus nerve is a major part of the parasympathetic nervous system, helping the body shift into rest, digest, repair, and recovery. Vagal tone is often estimated indirectly through heart rate variability, and higher vagal activity is generally associated with better adaptability, emotional regulation, digestion, and stress recovery. The vagus nerve also participates in immune regulation through the inflammatory reflex and cholinergic anti-inflammatory pathway, where vagal signaling can help regulate cytokine production and inflammatory responses. Key takeaway: The vagus nerve is not just a relaxation nerve. It is a regulation nerve. 8. The Microbiome and the Brain The microbiome is the ecosystem of bacteria, fungi, viruses, and other microorganisms living in and on the body, especially in the digestive tract. Healthy gut bacteria help digest food, produce vitamins, regulate the immune system, support the gut lining, create short-chain fatty acids, and influence neurotransmitter-related pathways. Gut microbiota can produce or influence neuroactive molecules and metabolites, including short-chain fatty acids, GABA-related signaling, serotonin-related signaling, catecholamines, histamine, and other compounds involved in gut-brain communication. Short-chain fatty acids such as acetate, propionate, and butyrate are produced when gut microbes ferment dietary fibers. Butyrate is especially important as a fuel source for colon cells and is involved in gut barrier function, immune modulation, metabolic signaling, and inflammatory regulation. Key takeaway: The microbiome is not just about digestion. It influences immune function, gut lining health, inflammation, metabolism, and brain signaling. 9. The Breach Sequence: Understanding “Leaky Gut” The episode explains intestinal permeability using the “breach sequence.” First, there are triggers: processed food, excess sugar, food sensitivities, infections, antibiotics, toxins, poor sleep, stress, alcohol, medications, or dysbiosis. Second, the gut lining becomes irritated or compromised. The intestinal barrier is supposed to be selectively permeable: nutrients should pass through, but larger inflammatory particles, pathogens, and toxins should be kept out of systemic circulation. Third, immune spillover can occur. When the immune system is repeatedly exposed to particles it considers threatening, it may become more activated, producing inflammatory signals. Increased intestinal permeability is best established in conditions like celiac disease, and it is being studied in relation to inflammatory, autoimmune, metabolic, and neuroimmune conditions. Zonulin h
May 21

5 minute Summary of the Gut On Fire Workshop

This is a public episode. If you would like to discuss this with other subscribers or get access to bonus episodes, visit elitefamilychiropractic.substack.com
May 20

Gut on Fire: Why Your Symptoms May Not Be Random

Most people do not walk into a doctor’s office saying, “I think my gut barrier is inflamed and my immune system is overreacting.” They say things like: · “I am exhausted all the time.” · “My child is anxious, reactive, constipated, picky, or constantly overwhelmed.” · “My skin keeps flaring and I cannot figure out why.” · “My hormones feel off.” · “I get bloated no matter what I eat.” · “My joints ache.” · “My brain feels foggy.” · “I feel like I have tried everything, but I am still stuck.” That was the purpose of our **Gut on Fire** workshop: to help families stop seeing symptoms as random, disconnected problems and start seeing them as signals. This does not mean every symptom is caused by the gut. The body is more complex than that. But the gut is one of the most important places where the outside world meets the inside world. Food, bacteria, toxins, medications, stress chemistry, immune triggers, and inflammatory signals all interact with the gut lining every day. When that system is irritated, inflamed, or overwhelmed, symptoms can show up far beyond digestion. The big idea is this: Your body is not broken. It is responding. The question is: what is it responding to? 1. Symptoms Are Signals, Not Random Annoyances One of the most important reframes from the workshop was the iceberg image. Above the surface, we see symptoms: anxiety, fatigue, eczema, constipation, brain fog, blood sugar problems, pain, allergies, hormone issues, and focus challenges. Below the surface, there may be a deeper biological process: chronic low-grade inflammation, immune activation, blood sugar instability, nutrient depletion, nervous system stress, microbiome imbalance, or increased intestinal permeability. This is why symptom chasing becomes so frustrating. A person may try one thing for sleep, another for anxiety, another for digestion, another for skin, and another for pain. Sometimes each strategy helps a little. But if the root fire is still burning, symptoms tend to return. A better question is not, “What can I take for this symptom?” A better question is, “What is my body responding to, and what do we need to measure to understand the pattern?” 2. The Gut Barrier: Your Body’s Intelligent Security Gate The gut lining is remarkable. It is designed to let nutrients in while keeping harmful or inflammatory particles out. It is not just a passive wall. It is more like an intelligent security gate. The cells of the gut lining are connected by structures called tight junctions. These tight junctions help regulate what is allowed to pass through the gut barrier. When the gut is healthy, this barrier is selective and intelligent. It allows nutrients to pass into circulation while keeping larger food particles, toxins, pathogens, and bacterial fragments where they belong. But when the gut is stressed by poor diet, chronic stress, infections, toxins, medications, constipation, dysbiosis, or inflammation, that gate can become irritated and less selective. This is commonly called **leaky gut**, or more technically, **increased intestinal permeability**. When the gut barrier becomes more permeable, the immune system may be exposed to particles it was never supposed to see. The immune system does exactly what it was designed to do: it responds. The problem is not that inflammation exists. Inflammation is part of healing. The problem is **unresolved inflammation**. When the immune system keeps hearing the alarm, it can start acting like a smoke detector that never shuts off. 3. Why Gut Inflammation Can Become a Whole-Body Problem Once the immune system is activated in the gut, inflammation does not always stay in the gut. Immune signals can influence the brain, skin, joints, hormones, blood sugar, energy production, and pain sensitivity. That is why one person may experience digestive problems and anxiety, while another has eczema and joint pain, while another has fatigue, headaches, and hormonal symptoms. The symptoms look different, but the underlying biology may be connected. This is one of the biggest shifts in root-cause thinking: the body is not a collection of isolated parts. It is a connected web. The gut talks to the immune system. The immune system talks to the brain. The brain talks to the gut. Hormones interact with blood sugar. Blood sugar affects inflammation. Inflammation affects energy. And stress physiology influences all of it. When the system is overloaded, symptoms can seem random. They may not be random at all. 4. The Gut-Brain Axis: Why a Stressed Gut Can Create a Stressed Brain The gut and brain are in constant communication. This communication happens through the vagus nerve, immune molecules, hormones, neurotransmitters, microbial metabolites, blood sugar signals, and the stress-response system. The vagus nerve is especially important because it carries a massive amount of information from the body back to the brain. In other words, the brain is constantly sampling information from the gut. When the gut is inflamed, the brain may receive more danger signals. That can show up as: · Anxiety or panic · Brain fog · Poor focus · Irritability · Sleep disruption · Low motivation · Sensory overwhelm · Fatigue · Heightened pain sensitivity This does not mean anxiety is “all in the gut.” It means anxiety can be amplified by bottom-up body signals. For many people, the brain is not randomly anxious. It may be reacting to messages coming from the gut, immune system, blood sugar system, and stress-response system. This is why gut healing must include nervous system regulation. Food matters. Supplements may help. Testing can be valuable. But if the nervous system is stuck in survival mode, digestion and repair are much harder. 5. The Vagus Nerve: The Rest, Digest, and Repair Highway The vagus nerve helps regulate digestion, heart rate variability, immune signaling, motility, breathing rhythm, and parasympathetic tone. When vagal tone is strong, the body is better able to shift into rest, digest, repair, and regulate. When the body is stuck in chronic fight-or-flight, digestion often suffers. Stomach acid may change. Motility may slow down or speed up. Blood flow may shift away from digestion. Constipation, reflux, bloating, appetite changes, and food reactions may become more likely. This is why nervous system support is not a side note. Breathwork, walking after meals, prayer, sleep rhythms, chiropractic care, outdoor movement, strength training, guided meditation, and predictable routines can all support the state of the body. The body heals best when it feels safe. 6. Kids, Behavior, and the Gut: We Are Not Treating a Label In the workshop, we talked carefully about autism, ADHD, sensory processing challenges, anxiety, meltdowns, picky eating, constipation, and neurodevelopmental stress. This part matters: We are not saying leaky gut causes autism. We are not saying gut healing cures autism. That would be too simplistic. What we are saying is that many children with neurodevelopmental challenges also struggle with digestive symptoms, constipation, reflux, diarrhea, picky eating, food sensitivities, dysbiosis, immune activation, nutrient insufficiencies, or poor sleep. The gut may not be the cause of the diagnosis, but it can be a major amplifier of biological stress on the nervous system. If a child is already working hard to regulate sensory input, communication, sleep, focus, and emotional control, gut inflammation or poor nutrient absorption can make the system work even harder. Behavior is communication. A child may not say, “My nervous system is overwhelmed, my blood sugar is unstable, and my gut feels inflamed.” They may melt down. They may avoid foods. They may crave carbs. They may struggle to fall asleep. They may become aggressive, impulsive, anxious, or constantly on edge. The goal is not to treat the label. The goal is to reduce the biological stress load on the child’s nervous system. 7. Gut Health and Hormones: The Hidden Connection Hormones do not dysregulate in isolation. The gut can influence hormones through inflammation, blood sugar regulation, cortisol output, thyroid conversion, bile flow, liver detoxification, nutrient absorption, and estrogen metabolism. This may matter for people struggling with: · PMS · Heavy or painful cycles · Mood changes · Acne · Breast tenderness · Fatigue · Weight-loss resistance · Sleep disruption · Perimenopausal symptoms · Cravings and afternoon crashes Blood sugar is one of the fastest ways to amplify the gut-brain-hormone loop. Spikes and crashes can increase stress chemistry, cortisol, adrenaline, cravings, shakiness, irritability, anxiety, and nighttime waking. This is why an anti-inflammatory plan must include protein, fiber, healthy fats, meal timing, and nutrient density. It is not just about gut comfort. It is about neuroendocrine regulation. 8. The Immune System: Weak, Broken, or Overwhelmed? A large portion of immune activity is associated with the gut. That makes sense because the gut has to constantly decide what is safe and what is threatening. When the gut barrier is compromised or the microbiome is disrupted, the immune system may become chronically activated. Over time, that may contribute to patterns such as: · Food sensitivities · Seasonal allergies · Frequent illness · Histamine issues · Skin flares · Chemical sensitivity · Autoimmune tendencies · Chronic inflammation The immune system may not be weak. It may be overwhelmed. It may be overexposed to inflammatory triggers, under-supported by key nutrients, and under-regulated by sleep, stress, blood sugar, and nervous system imbalance. The question becomes: what is the immune system reacting to, and why does the body not feel safe? 9. Skin, Pain, and Inflammation: The Outside Reflects the Inside The skin is often where internal inflammation becomes visible. Eczema, acne, rashes, hives, flushing, and itchy
Apr 25

Food as Medicine

🧠🔥 The Silent Fire Inside Your Body (And Why No One Is Talking About Where It Starts) Introduction: The Question We Rarely Ask Most conversations about health begin at the wrong point. They begin with: * symptoms * diagnoses * treatments But rarely do they begin with the question that actually matters: What is driving this process in the first place? This presentation—and this article—is an attempt to answer that question honestly. Not superficially. But at the level where biology actually operates. 🧩 PART 1: THE MACRO VIEW — THE INDUSTRIALIZATION OF HUMAN BIOLOGY 📍 Slide 1: Food as Medicine — The Hidden Drivers of Inflammation To understand chronic disease, we have to zoom out far enough to see the pattern. Not at the level of individual patients… But at the level of civilization. Over 99% of human evolutionary history occurred in an environment defined by: * unprocessed foods * stable nutrient density * minimal chemical exposure * intermittent caloric intake Within the last 100–150 years, that environment has been replaced by something entirely different: * calorically dense, nutrient-poor foods * refined carbohydrates and sugars * industrial seed oils * synthetic additives and preservatives This shift is not incremental. It is catastrophic from a biological perspective. Human physiology adapts over thousands of generations. We changed the rules in less than five. The result is what can only be described as a mismatch disease model—where the inputs no longer align with the biological systems they are meant to support. This mismatch is reflected in healthcare spending patterns and disease prevalence. Chronic, non-communicable diseases dominate modern healthcare utilization, not because they are unavoidable, but because they are continuously being driven by environmental inputs. The key insight here is foundational: Chronic disease is not random. It is largely the predictable output of repeated biological signals. And food—more than anything else—is the most consistent signal we deliver. 📍 Slide 2: The Illusion of Health — The Iceberg Effect of Inflammation One of the most dangerous assumptions in modern health is that absence of symptoms equals presence of health. It does not. Biological systems are designed to compensate. For years—sometimes decades—the body can maintain function while underlying systems degrade. This is the preclinical phase of disease, and it is where most pathology develops. At a cellular level, this phase is characterized by: * mitochondrial inefficiency * low-grade immune activation * early insulin resistance * endothelial dysfunction None of which are typically felt. The symptoms that eventually emerge—fatigue, pain, cognitive decline—are not early warnings. They are late-stage manifestations of processes that have already been in motion. This is why the iceberg analogy is so useful. The visible portion is small. The majority of dysfunction lies beneath the surface. And by the time it becomes visible, intervention becomes more complex. 📍 Slide 3: Inflammation as a Dual-Edged System Inflammation is often misunderstood because it is discussed in binary terms—good or bad. In reality, it is neither. It is a system. And like any system, its impact depends on regulation. Acute inflammation is: * rapid * localized * self-limiting It is essential for: * tissue repair * pathogen clearance * recovery Chronic inflammation, however, represents a failure of resolution. It is: * persistent * systemic * dysregulated At the molecular level, this involves sustained activation of pathways such as: * NF-κB * NLRP3 inflammasome * pro-inflammatory cytokines (IL-1β, IL-6, TNF-α) Over time, this leads to: * tissue degradation * impaired repair * increased disease susceptibility A useful framework is this: Acute inflammation is a signal. Chronic inflammation is a state. And most modern disease exists within that state. 🧬 PART 2: THE PATHOPHYSIOLOGY OF DECAY 📍 Slide 4: Inflammaging — The Mitochondrial Origin of Chronic Disease The concept of inflammaging provides a unifying framework for understanding chronic disease. It describes a condition in which the immune system remains chronically activated in the absence of acute infection. At the center of this process are the mitochondria. Mitochondria are not just energy producers. They are also: * regulators of apoptosis * modulators of immune signaling * sources of reactive oxygen species (ROS) Under normal conditions, ROS production is tightly controlled and serves signaling functions. Under chronic stress—nutritional, environmental, or metabolic—mitochondria become dysfunctional. This results in: * excessive ROS production * leakage of mitochondrial DNA * release of danger-associated molecular patterns (DAMPs) These signals are interpreted by the immune system as indicators of infection or damage. This activates inflammatory pathways, particularly the NLRP3 inflammasome. The result is sterile inflammation—an immune response without a pathogen. Over time, this leads to: * impaired cellular repair * accelerated aging * increased vulnerability to disease This is why inflammatory markers often correlate more strongly with mortality than chronological age. The biological age of a system is determined not by time… But by the level of chronic inflammatory burden. 📍 Slide 5: Metabolic Inputs as Inflammatory Drivers To understand why inflammaging occurs, we have to examine the inputs that drive it. Refined carbohydrates and insulin signaling Chronic consumption of refined carbohydrates leads to repeated insulin elevation. Insulin, beyond its metabolic role, functions as a signaling molecule that influences: * lipid metabolism * inflammatory pathways * cellular growth processes Persistently elevated insulin contributes to: * increased adiposity * cytokine production * insulin resistance Adipose tissue itself becomes metabolically active, producing inflammatory mediators. This creates a self-reinforcing cycle. Industrial seed oils and membrane integrity Cell membranes are composed largely of lipids. The composition of these lipids determines: * receptor function * signal transduction * cellular responsiveness Industrial seed oils are high in omega-6 fatty acids and prone to oxidation. Their incorporation into cell membranes leads to: * increased membrane instability * altered receptor conformation * heightened inflammatory signaling This contributes to hormone resistance and impaired cellular communication. Chemical additives and immune activation Modern food contains numerous synthetic compounds. Many of these: * disrupt the gut microbiome * activate immune pathways * increase oxidative stress NF-κB activation is a central mechanism here. This transcription factor regulates the expression of numerous inflammatory genes. Its chronic activation leads to sustained immune signaling. The key point is this: These inputs are not neutral. They actively shape the inflammatory state of the body. 📍 Slide 6: Glycemic Variability and the Chemistry of Aging The glycemic index provides insight into how foods impact blood glucose. But its significance extends far beyond energy regulation. High-glycemic foods produce rapid increases in blood glucose. This leads to: * insulin spikes * oxidative stress * activation of inflammatory pathways A critical process here is glycation. Glucose molecules bind to proteins and lipids, forming Advanced Glycation End-products (AGEs). AGEs: * alter protein structure * impair function * increase tissue stiffness They also bind to the RAGE receptor, which amplifies inflammatory signaling. This process contributes to: * vascular damage * neurodegeneration * accelerated aging The repeated cycle of spike → crash → stress response further compounds the problem. It activates cortisol and sympathetic nervous system activity, reinforcing the inflammatory state. Thus, glycemic variability is not just a metabolic issue. It is a driver of systemic inflammation. 🧠 PART 3: THE INTERCONNECTED SYSTEM 📍 Slide 7: Fatty Acid Balance and Inflammatory Signaling Fatty acids serve as precursors to signaling molecules known as prostaglandins. Omega-6 fatty acids produce: * pro-inflammatory prostaglandins Omega-3 fatty acids produce: * anti-inflammatory and resolving mediators In ancestral diets, the ratio of omega-6 to omega-3 was balanced. In modern diets, it is heavily skewed toward omega-6. This imbalance results in: * increased inflammatory signaling * reduced resolution capacity Importantly, this balance is reflected in cell membrane composition. Which means: The inflammatory potential of your body is partially determined by what your cells are made of. 📍 Slide 8: Nutritional Information and Epigenetic Signaling Food interacts with the genome through epigenetic mechanisms. This includes: * DNA methylation * histone modification * gene expression regulation Certain compounds: * activate protective pathways (e.g., NRF2) * reduce inflammation * enhance detoxification Others: * disrupt microbiome balance * increase oxidative stress * impair barrier function Glyphosate exposure, for example, has been shown to alter gut microbial composition. This affects: * immune function * metabolic regulation * gut integrity Thus, food acts as a continuous regulator of biological function. 📍 Slide 9: Intestinal Permeability as a Central Mechanism The intestinal barrier plays a critical role in maintaining internal homeostasis. It selectively allows: * nutrients to pass * harmful substances to be excluded Tight junction proteins regulate this process. Disruption of these junctions leads to increased permeability. This allows: * endotoxins (e.g., LPS) * undigested proteins * environmental toxins to enter circulation. This condition, often referred to as leaky gut, triggers systemic immune activation. LPS, in particular, is a potent inflammatory stimulus. It activates toll-l
Apr 10

Brain Laser Therapy: A New Model for Brain Health, Performance, and Healing

In this episode, Dr. Scott Haggerty breaks down a powerful and often overlooked truth about brain health: 👉 Most brain-based challenges are not just behavioral or chemical… they are energetic and functional. 🧠 What You’ll Learn This conversation takes a deep dive into how the brain actually works—and why so many people today feel: * overwhelmed * unfocused * anxious * mentally fatigued * “not like themselves” Rather than viewing these as isolated conditions, Dr. Haggerty introduces a unifying model: 👉 The brain depends on two core systems: * Energy (fuel) * Timing (neural rhythm and communication) When either—or both—break down, the brain becomes inefficient. And that inefficiency shows up as symptoms. ⚡ The Role of Brain Laser Therapy At the center of this discussion is photobiomodulation (brain laser therapy)—a technology that works at the cellular level to support brain function. The episode explains how targeted light therapy can: * Increase mitochondrial activity and ATP production * Improve blood flow and oxygen delivery * Enhance neural signaling and network communication * Support better regulation of the autonomic nervous system Instead of “treating symptoms,” this approach focuses on: 👉 Restoring the brain’s ability to function the way it was designed to Thanks for reading! Subscribe for free to receive new posts and support my work. 🔬 The Research Behind It Dr. Haggerty walks through key studies showing: * Significant improvements in attention, memory, and processing speed * Measurable behavioral improvements in neurodevelopmental conditions * Strong responder rates compared to placebo in clinical trials * Moderate-to-large effect sizes in cognitive performance studies The takeaway: 👉 This is not fringe science—it’s an emerging and rapidly growing field. 🧠 A New Way to Think About Brain Health One of the most important ideas in this episode is this shift: Instead of asking: ❌ “What diagnosis is this?” We start asking: ✅ “How is this brain functioning?” * Does it have enough energy? * Are its networks communicating efficiently? * Can it regulate under stress? This model applies to: * kids struggling with focus and regulation * adults dealing with stress and burnout * athletes and high performers optimizing function * aging individuals looking to preserve cognition Thanks for reading! This post is public so feel free to share it. 🚀 The Bigger Picture This episode isn’t just about a therapy. It’s about a paradigm shift. 👉 From symptom management → to functional optimization👉 From chasing diagnoses → to understanding systems👉 From reacting → to proactively supporting the brain 🎯 Key Takeaway The brain doesn’t need more force—it needs the right environment to function and adapt. Brain laser therapy is one of the tools that can help create that environment. 👇 What’s Next If this episode sparked your curiosity, the next step is understanding your own brain: * How it’s functioning * Where it’s struggling * And how to support it more effectively This is a public episode. If you would like to discuss this with other subscribers or get access to bonus episodes, visit elitefamilychiropractic.substack.com
Mar 5

🧠 Tuning the Brain for Peak Performance:

For decades, scientists believed peak brain performance was mostly determined by genetics. Today we know something very different. The brain is not fixed — it is dynamic, adaptable, and energy dependent.And when the brain’s cellular energy systems improve, cognitive performance can improve as well. One emerging technology attracting attention in neuroscience, rehabilitation medicine, and performance science is photobiomodulation (PBM) — also known as brain laser therapy. Recent research suggests that specific wavelengths of light may support brain metabolism, improve blood flow, and enhance neural network efficiency. But perhaps most interesting of all… Photobiomodulation may help the brain operate in optimal electrical rhythms known as brain waves. Two of the most important brain wave patterns for high-level performance are Alpha waves and Gamma waves. Understanding how these rhythms work gives us insight into how brain function may be enhanced. 🧠 The Brain Is an Electrical Organ Every thought, movement, and memory in the brain occurs through electrical activity across billions of neurons. When groups of neurons fire together, they create measurable rhythmic patterns known as brain waves. Different brain wave frequencies correspond to different cognitive states: Brain WaveFrequencyAssociated StateDelta0.5–4 HzDeep sleepTheta4–8 HzCreativity, memory processingAlpha8–12 HzCalm focus, learning readinessBeta13–30 HzActive thinkingGamma30–100 HzHigh-level cognition and integration Among these, Alpha and Gamma activity are strongly associated with cognitive performance. 🌊 Alpha Waves: The Brain’s “Signal-to-Noise” Filter Alpha waves occur when the brain is calm but alert. This state is sometimes described as “relaxed concentration.” It’s the mental state seen when: • learning new information• performing skilled tasks• thinking creatively• entering a flow state Research suggests that alpha activity helps the brain filter unnecessary sensory information, allowing the brain to focus on relevant signals. In other words, alpha waves improve the brain’s signal-to-noise ratio. A landmark review published in Nature Reviews Neuroscience describes alpha oscillations as a mechanism that selectively inhibits irrelevant neural activity to enhance task performance. Alpha rhythms are particularly important in regions like the: • Prefrontal cortex (executive function)• Parietal cortex (attention networks)• Default mode network hubs When alpha activity is well regulated, individuals often experience: ✔ improved attention✔ clearer thinking✔ improved learning efficiency✔ greater mental clarity ⚡ Gamma Waves: The Brain’s High-Performance Rhythm If alpha waves help organize information, gamma waves help integrate it. Gamma oscillations are the fastest brain waves and are associated with: • memory formation• information processing• problem solving• conscious awareness Some of the strongest gamma activity ever recorded has been observed in long-term meditators, suggesting that gamma rhythms may reflect a highly integrated and efficient brain state. Gamma oscillations help synchronize neural activity across distant regions of the brain. This synchronization is believed to be critical for: • working memory• complex cognition• learning and neural plasticity In fact, neuroscientists sometimes describe gamma activity as the brain’s “binding frequency” — the rhythm that allows different parts of the brain to communicate efficiently. 💡 Where Brain Laser Therapy Comes In Brain Laser Therapy is a form of photobiomodulation (PBM). It involves delivering specific wavelengths of light — typically in the red and near-infrared spectrum — to biological tissue. These wavelengths can penetrate the scalp and skull and interact with cellular components inside brain cells. The primary target appears to be the mitochondrial enzyme cytochrome c oxidase, which plays a central role in cellular respiration. When stimulated by light, this enzyme may increase mitochondrial activity. This can lead to: 🔋 increased ATP production🩸 improved cerebral blood flow🧠 improved oxygen utilization🔄 enhanced neuroplasticity These effects may help neurons function more efficiently. And when neurons function more efficiently, neural networks can regulate their rhythms more effectively. 🧠 Evidence for Brain Photobiomodulation Over the past decade, research on transcranial photobiomodulation has grown rapidly. Studies have reported improvements in: • cognitive performance• attention and executive function• memory• mood regulation For example: A randomized controlled trial published in Neuroscience found that near-infrared stimulation of the prefrontal cortex improved working memory and executive function in healthy adults. Another study published in Frontiers in Neuroscience demonstrated improved cerebral blood flow and cognitive performance following transcranial photobiomodulation. Additional research has explored its potential use in conditions such as: • traumatic brain injury• stroke recovery• depression• Alzheimer’s disease• Parkinson’s disease While the field is still evolving, the data suggests that supporting brain metabolism may have meaningful effects on neural function. 🧠 Brain Networks Often Targeted for Cognitive Performance When clinicians apply brain photobiomodulation for cognitive optimization, they often focus on regions that support executive function and attention networks. These include: Prefrontal Cortex Responsible for: • decision making• working memory• impulse control• goal-directed behavior Anterior Cingulate Cortex Involved in: • attention regulation• emotional processing• error detection• cognitive endurance Parietal Cortex Plays a role in: • sensory integration• spatial awareness• attention shifting Cerebellum Traditionally associated with motor control but now known to support: • cognitive timing• learning• coordination of neural networks These regions work together as part of the brain’s executive control network. Optimizing the function of these systems may support higher levels of cognitive performance. 🔬 Why Energy Matters in Brain Performance The human brain represents only 2% of body weight, yet consumes roughly 20% of the body’s energy. Every thought, memory, and movement requires ATP. When brain cells struggle to produce sufficient energy, neural signaling becomes less efficient. This can manifest as: • brain fog• poor concentration• mental fatigue• slower processing speed Photobiomodulation aims to support the brain’s cellular energy systems, allowing neural networks to operate more efficiently. 🧠 The Future of Brain Optimization The idea that light could influence brain function once seemed futuristic. Today it is one of the most rapidly growing areas of neuroscience research. Photobiomodulation is being studied not only for neurological disease, but also for: • cognitive performance• healthy aging• learning enhancement• mental resilience As the science continues to evolve, technologies that support brain metabolism may play an increasing role in both clinical care and human performance optimization. Final Thoughts The brain is not a static organ. It is an adaptive, energy-dependent system. When cellular metabolism improves, neural networks can function more efficiently — and the brain may be able to operate in more optimal rhythms such as alpha and gamma activity. Brain laser therapy represents one of the most intriguing tools currently being explored to support this process. And while research is ongoing, the possibility that light may help optimize brain function is opening exciting new doors in neuroscience. References Hamblin MR. Photobiomodulation for brain disorders. Neurophotonics. 2016. Naeser MA et al. Transcranial laser therapy for traumatic brain injury. PM&R. 2014. Barrett DW, Gonzalez-Lima F. Transcranial infrared laser stimulation produces beneficial cognitive and emotional effects. Neuroscience. 2013. Ullah N et al. Near-infrared light increases cerebral blood flow and improves cognition. Frontiers in Neuroscience. 2021. Klimesch W. Alpha-band oscillations, attention, and controlled access to stored information. Trends in Cognitive Sciences. 2012. This is a public episode. If you would like to discuss this with other subscribers or get access to bonus episodes, visit elitefamilychiropractic.substack.com
Feb 27

🧠 Primitive Reflexes Aren’t the Problem. They’re the Signal.

There’s a moment almost every parent experiences. You finally get an answer. “Your child has retained primitive reflexes.” And for a second, it feels relieving. Finally. A label. A direction. Then comes the next step: Exercises. Drills. Daily routines. And maybe you see improvement… Until stress hits. Until illness hits. Until school pressure rises. And suddenly the reflexes — and the behaviors — are back. So what’s actually happening? The Question Most People Aren’t Asking Primitive reflexes are not random glitches in development. They are brainstem-mediated survival programs. They are designed to protect. They are supposed to be present early in life. The real question isn’t: “How do we eliminate this reflex?” The real question is: “Why is the brain still choosing to use it?” Because reflex integration is not about erasing a movement. It’s about developing inhibition. Integration = Inhibition Primitive reflexes live in the brainstem. As children grow, the higher brain — particularly the frontal cortex — develops the ability to send inhibitory signals downward through the corticospinal tract. That pathway acts like a brake pedal. When it’s strong, reflexes stay quiet. When it’s weak, reflexes remain accessible. This is why primitive reflexes re-emerge in adults after stroke or brain injury.When cortical inhibition is lost, the survival circuits return. So in children, retained reflexes often mean one thing: The inhibition system isn’t fully matured or fully regulated yet. That’s a different conversation than “your child is broken.” Stress Changes the Brain Now layer in something modern kids experience constantly: Stress. Chronic stress increases firing in the locus coeruleus — the brain’s norepinephrine center. Research (Arnsten, 2009) shows that stress impairs prefrontal cortex function — the very area responsible for inhibitory control. Less inhibition.More brainstem dominance.More reflex expression. Suddenly reflex retention isn’t random. It’s predictable. The Vagus Nerve Connection The vagus nerve feeds into the brainstem and connects to the prefrontal cortex, amygdala, and stress centers. When vagal tone is strong:Regulation improves.Emotional control improves.Stress recovery improves. When vagal tone is low:The nervous system stays in fight-or-flight.Brainstem reactivity increases.Inhibition weakens. Research on heart rate variability (Thayer & Lane, 2000) supports this neurovisceral integration model. Primitive reflexes are part of that same regulatory network. This is why children with retained reflexes often also struggle with: • Anxiety• Sensory sensitivity• Sleep challenges• GI issues• Emotional dysregulation It’s not separate problems. It’s one nervous system story. The Cerebellum: The Overlooked Player The cerebellum coordinates movement — but also emotion and cognitive timing. It communicates upward to the frontal lobe through the cerebello-thalamo-cortical pathway. When cerebellar modulation is inefficient:Posture becomes unstable.Movement feels effortful.Inhibition weakens. And the brain defaults to survival strategies. Safety before refinement. Always. Why We Don’t Start by “Chasing Reflexes” Reflex exercises train motor patterns. But if the nervous system is still dysregulated —If stress chemistry is elevated —If vagal tone is low —If cortical inhibition is weak — Drills alone may not hold under pressure. State drives function. So our order matters: * Support autonomic regulation * Improve brain-body sensory input * Enhance cerebellar modulation * Strengthen cortical inhibition * Then refine motor patterns Calm the storm.Then teach the skill. What the Research Says About Brain–Body Communication Spinal joints contain thousands of mechanoreceptors. They constantly send input to:• The cerebellum• The brainstem• The cortex Dr. Heidi Haavik’s research has demonstrated that spinal adjustments can alter sensorimotor integration in the brain (Haavik & Murphy, 2007). Other research shows changes in cortical drive following spinal manipulation (Niazi et al., 2015). This doesn’t mean adjustments erase reflexes. It means sensory input influences brain processing. Better input can support stronger inhibition. Stronger inhibition supports natural reflex integration. The Bottom Line Primitive reflexes are not the diagnosis. They are a biomarker. They tell us: The nervous system is working hard in survival mode. When we support regulation, integration, and brain-body communication — Development moves forward. Not forced.Not chased.Matured. 🎥 Watch the Full Webinar In this week’s webinar, I walk through: • The actual brain pathways involved• How stress changes inhibition• The vagus nerve connection• The cerebellum’s role• And the correct starting point for long-term change If this perspective helps you, please share it. There is another parent right now blaming themselves — who just needs to understand the circuitry. Because when parents understand the brain… They stop chasing symptoms. And they start supporting development. This is a public episode. If you would like to discuss this with other subscribers or get access to bonus episodes, visit elitefamilychiropractic.substack.com
Feb 26

🌪️ The Perfect Storm: Why So Many Kids Are Struggling Right Now

If you are a parent who feels like you are constantly putting out fires… If your child struggles with anxiety, meltdowns, focus issues, sensory overload, sleep challenges, or emotional volatility… If you’ve ever whispered to yourself,“Why is this so hard?” Please hear this first: Your child is not broken.And you are not failing. But we are living in the middle of something I call a Perfect Storm. 🌪️ What Is the Perfect Storm? The Perfect Storm is what happens when multiple stressors stack on a developing nervous system faster than it can adapt. This isn’t about one thing. It’s not just screen time.It’s not just food dyes.It’s not just birth trauma.It’s not just school stress. It’s the accumulation. From pregnancy stress…To birth interventions…To early immune challenges…To sensory overload…To academic pressure…To emotional stress inside and outside the home… Layer upon layer. The developing brain was designed to grow in safety and connection. But when the nervous system experiences repeated stress without proper regulation, it adapts for survival. And survival mode changes everything. 🧠 The Nervous System Shift Most Parents Don’t See When stress accumulates, the brain shifts toward protection. The “gas pedal” (sympathetic fight-or-flight system) becomes dominant.The “brake pedal” (parasympathetic vagal system) becomes underactive. This leads to: • Hypervigilance• Big emotional reactions• Sensory defensiveness• Difficulty focusing• Sleep struggles• Digestive issues• Chronic tension From the outside, it looks behavioral. From the inside, it’s neurological. A stressed brain cannot regulate properly. And you cannot discipline a dysregulated nervous system into calm. 💡 Why This Matters When parents only see behavior, they chase behavior. When parents understand the nervous system, they change the approach entirely. Instead of:“What consequence will fix this?” We ask:“What support does this nervous system need?” That shift changes outcomes. Because the brain is adaptable. Neuroplasticity is real. But regulation must come before reasoning.Safety must come before skills.Connection must come before correction. 🧬 The Hope Most Families Haven’t Been Told The nervous system can change. When we reduce stress load…When we improve brain-body communication…When we support vagal tone…When we create consistent safety cues… The brain reorganizes. We see:• Better emotional regulation• Improved focus• Calmer sensory processing• More resilient responses• Better sleep• Healthier digestion Not because we forced behavior. But because we restored balance. ❤️ To the Parent Reading This If you saw your child in this video… If something inside you said,“That’s exactly what we’re experiencing…” That is not coincidence. That is awareness. And awareness is the first step toward change. You are not alone in this storm. But storms do not last forever. When we understand the nervous system,we stop fighting the wavesand start changing the weather. If this resonated with you, reply to this post and tell me: 👉 What part of your child’s journey feels like the biggest storm right now? Your story matters. And sometimes just realizing“it’s neurological”is the beginning of everything shifting. — Dr. Scott This is a public episode. If you would like to discuss this with other subscribers or get access to bonus episodes, visit elitefamilychiropractic.substack.com

Take Health Back is a family wellness podcast for parents who are ready to stop chasing symptoms and start building real health at home. Each episode gives you practical brain-body strategies for stronger minds, healthier guts, stronger bodies, and more resilient families. elitefamilychiropractic.substack.com

Creator

Real health. Real families. Strong minds. Healthy guts. Strong bodies.
Years Active

2022 - 2026
Episodes

24
Rating

Clean
Copyright

© Dr. Scott Haggerty
Show Website

Take Health Back Podcast